Porosome Therapeutics Inc. has announced the development of novel first-in-class porosome-targeting small molecules and blood-brain barrier-traversing peptide drugs developed using the company’s Porosome.AI platform to treat various secretory disorders, such as Alzheimer’s disease and type 2 diabetes.

Tessera Therapeutics Inc.’s lead in vivo gene editing program, TSRA-196, has been awarded orphan drug and fast track designations by the FDA for adults with α-1 antitrypsin deficiency (AATD).

Researchers from Imperial College London and collaborators further investigated C/EBPβ as a target for MASLD and evaluated the efficacy of a C/EBPβ-targeted siRNA approach to reverse metabolic dysfunction and restore liver function in high-fat-diet-induced steatosis, which can be precursor to MASH and hepatocellular carcinoma.

In previous work, researchers from CEINGE (Naples, Italy) and collaborating institutions developed an alternative gene therapy strategy based on the expression of a secreted fusion protein, including the extracellular portion of the human LDLR for LDL binding, linked to rabbit transferrin (TF), targeting the transferrin receptor (TFr), resulting in internalization and uptake of LDL particles. They have now published more recent work to further improve the efficacy and safety of this strategy.

On the average, humans – and pigs, and deer, and birds – who live at high altitudes have better blood glucose control than their counterparts near sea level. In work published in the Feb. 19, 2026, issue of Cell Metabolism, investigators have linked this phenomenon to red blood cells that directly take up and metabolize glucose from the blood under low oxygen conditions.

In the inflamed joints of rheumatoid arthritis, CD4+ T lymphocytes accumulate lipid droplets that make them vulnerable and promote their death, thereby amplifying joint inflammation. A study led by scientists at Mayo Clinic and Stanford University suggests that blocking the formation of these lipid droplets or their contents could offer a therapeutic strategy for this condition.

The variety of organoids that can be developed in vitro is enabling major advances. Depending on the type of tissues and the research goals, these small 3D cell-based structures that mimic real tissue offer certain advantages over animal models. Scientists at the University of Padova in Italy have created human neuromuscular organoids to reproduce cancer-induced muscle cachexia, a condition that murine models do not accurately replicate.